Dataset-1: Drone Remote Controller RF Signal Dataset
Lead Experimenter
Martins Ezuma, NC State University
Link to Dataset
- Dataset Link:
IEEE Dataport
Publications Using This Dataset
- B. Gündoğan, H. Ergezer, “Comprehensive Comparison of Various ML Algorithms for RF Fingerprints Classification,” 31st Signal Processing and Communications Applications Conference (SIU 2023), July 2023.
- R. Akter, S. V. Doan, A. Zainudin, D.-S. Kim, “Sparsely Connected Low-Complexity CNN for Unmanned Vehicles Detection (RFDNet),” IEEE Transactions on Vehicular Technology, October 2024.
- Shah et al., “Robust RF Fingerprinting With Signal Denoising and Stacked Multivariate Ensemble Learning,” IEEE Access, September 2025.
- N. Quadar, A. Chehri, B. Debaque, “Feature Learning and Continual Adaptation for Robust RF Fingerprinting in UAV Networks,” Conference paper 2026, May 2026.
- O. O. Medaiyese, M. Ezuma, A. P. Lauf, A. A. Adeniran, “Hierarchical Learning Framework for UAV Detection and Identification,” IEEE Journal of Radio Frequency Identification (IEEE J-RFID), September 2022.
- Kaushik et al., “Entropy-Based Detection Approach for Micro-UAV and Classification Using ML,” 2022 IEEE National Aerospace and Electronics Conference (NAECON), August 2022.
- Q. Chen, W. Wu, W. Luo, “Lossless Compression of Sensor Signals Using an Untrained Multi-Channel RNN Predictor,” Lossless Compression of Sensor Signals Using an Untrained Multi-Channel Recurrent Neural Predictor, November 2021.
- N. V. Bac, H. V. Phuc, D. V. Sang, H. X. Tinh, T. D. Linh, “Deep-Learning CNN + CFAR for RF-Signature-Based Drone Recognition Under Noise,” Application of CNN deep learning model and CFAR filtering technique for RF-based drone signal classification in noisy conditions, June 2024.
- M. Rabie, C. Panagamuwa, K. G. Kyriakopoulos, “ELC: Evidential Lifelong Classifier for Uncertainty-Aware Radar Pulse Classification,” arXiv preprint arXiv:2604.06958, April 2026.
- T. Delleji, F. Slimeni, “RF-YOLO: A Modified YOLO Model for UAV Detection and Classification Using RF Spectrogram Images,” Telecommunication Systems, February 2025.
- L. H. Kirakosyan, M. V. Navoyan, V. G. Melkonyan, A. S. Sardaryan, S. S. Sargsyan, “Real-Time Radio Signal Classification Based on Spectrograms,” Programming and Computer Software, January 2026.
- K. Bremnes, R. Moen, S. R. Yeduri, R. R. Yakkati, L. R. Cenkeramaddi, “Classification of UAVs Utilizing Fixed Boundary Empirical Wavelet Sub-bands of RF Fingerprints and Deep CNN,” IEEE Sensors Journal, November 2022.
- R. R. Yakkati, A. Gade, B. H. Koduru, B. Pardhasaradhi, L. R. Cenkeramaddi, “Classification of UAVs Using Time-Frequency Analysis of Remote Control Signals and CNN,” 2022 IEEE iSES, December 2022.
- M. H. Rahman, M. A. Aziz, R. Tabassum, M. A. S. Sejan, J. I. Baik, H. K. Song, “Improved Drone Classification and Detection Using RF: A Cascaded Deep Learning Approach,” 2024 15th ICTC, October 2024.
- M. U. Zahid, M. D. Nisar, A. Fazil, J. Ryu, M. H. Shah, “Composite Ensemble Learning Framework for Passive Drone RF Fingerprinting in 6G Networks,” 2024, August 2024.
- A. Singh, V. Sharma, K. Rawat, “Classification of RF Fingerprint Signals from UAV Controller Using ML Techniques,” 2023 IEEE MAPCON, December 2023.
- Jain et al., “Robust Drone Identification via RF Spectrogram Analysis Using RobustSpecNet,” International Conference on Intelligent Systems, September 2026.
- Yiğit et al., “RF Fingerprinting and Classification of 15 Different UAV Remote Controllers via Raw Signal Analysis with 1D-CNN,” 18th International Conference on Electronics, July 2026.
- I. Kaya, B. B. Atalay, K. Yiğit, I. I. Ibrahim, S. M. Bostan, G. Aydemir, M. B. Tabakcioglu, “RF Fingerprint-Based Drone Controller Classification Using Feature Engineering and ML,” 18th International Conference on Electronics, July 2026.
- Wang et al., “Comparative Analysis of Experimental Methodology in RF-Based Drone Detection and Classification Datasets,” IEEE 2025, September 2025.
- M. Ezuma, F. Erden, K. Anjinappa, O. Ozdemir, I. Guvenc, “Detection and Classification of UAVs Using RF Fingerprints in the Presence of Interference,” IEEE Open J. Communication Society, January 2020.
Equipment and Software Used
Keysight High-Sampling Oscilloscope, drones and remote controllers from different vendors (this is a BYOD experiment)
Description
This dataset contains RF signals from drone remote controllers (RCs) of different makes and models. The RF signals transmitted by the drone RCs to communicate with the drones are intercepted and recorded by a passive RF surveillance system, which consists of a high- frequency oscilloscope, directional grid antenna, and low-noise power amplifier. The drones were idle during the data capture process. All the drone RCs transmit signals in the 2.4 GHz band. There are 17 drone RCs from eight different manufacturers and ~1000 RF signals per drone RC, each spanning a duration of 0.25 ms.

